Inside a magnet, there are tiny particles called atoms that have their own magnetic fields. These atoms align in the same direction, creating a magnetic field that gives the magnet its magnetic properties.
A magnet has magnetic properties because the dipoles of the atoms are lined up in a single direction. To demagnetize it, you must scramble the dipoles out of alignment. First, heat the magnet past the Curie point (the temperature at which it loses its magnetic properties until cooled). Strike it on the ends of the magnet with a hammer. When cooled, it will no longer be magnetized.
The atoms in a magnet are arranged in some kind of lattice, but the arrangement of the atoms is not what is important. What is important is that the magnetic dipoles of a good portion of the atoms are all "pointing" in the same direction. The aligned atomic magnetic dipoles form groups called magnetic domains, and these are locked in place making the magnet a permanent magnet. It "permanently" holds its magnet field, and is said to be a permanent magnet. And all because the magnetic domains in the ferromagnetic material are largely aligned.
An object that produces a magnetic field is called a magnet. A magnet have two poles, a south pole and a north pole. The aspect that why magnet have poles has remained unexplained. According to Walker it is a phenomena of the universe and nothing else.
Well its all about arrangement of electrons inside the metal. This arrangement gives rise to a force field(not a shield used by the invisible woman in the fantastic four) which has the property of attracting small pieces of iron fillings. Or it may produce electricity when it is displaced around a conductor. How the field arises is the same as how electric force arises.
Yes, plutonium is magnetic. It has an unpaired electron in its outer electron shell, which gives it magnetic properties.
Most minerals are not attracted to magnets, but certain minerals, such as magnetite, are ferromagnetic and can be attracted to magnets. These magnetic minerals contain iron, which gives them this property. Other minerals may exhibit weak magnetic properties, but the majority do not respond to magnetic fields.
Magnet* does*, and i gives off magnetic energy.
A magnet has magnetic properties because the dipoles of the atoms are lined up in a single direction. To demagnetize it, you must scramble the dipoles out of alignment. First, heat the magnet past the Curie point (the temperature at which it loses its magnetic properties until cooled). Strike it on the ends of the magnet with a hammer. When cooled, it will no longer be magnetized.
The atoms in a magnet are arranged in some kind of lattice, but the arrangement of the atoms is not what is important. What is important is that the magnetic dipoles of a good portion of the atoms are all "pointing" in the same direction. The aligned atomic magnetic dipoles form groups called magnetic domains, and these are locked in place making the magnet a permanent magnet. It "permanently" holds its magnet field, and is said to be a permanent magnet. And all because the magnetic domains in the ferromagnetic material are largely aligned.
Monazite contains elements such as cerium, lanthanum, and neodymium which have magnetic properties. These elements have unpaired electrons in their orbitals, allowing them to exhibit magnetic behavior when they align their magnetic moments. This gives monazite its magnetic properties.
An object that produces a magnetic field is called a magnet. A magnet have two poles, a south pole and a north pole. The aspect that why magnet have poles has remained unexplained. According to Walker it is a phenomena of the universe and nothing else.
If it is a small magnet, like one that you can hold in your hand, place the magnet on a flat surface, put a white sheet of paper over it, take iron shavings or shavings from a magnetic metal, and sprinkle them on the paper. Gently shake the paper if you have to. You should start to see lines from where the magnetic fields attracted the metal.
A magnet is an alignment of particles in a solid. You can imagine a magnet as a bunch of tiny magnets that are all pointing in the same direction. When they point in the same direction, the little parts add up, and the magnet works like you'd expect. When you heat or hammer a magnet, the little magnetic parts can get jostled and unaligned. When that alignment is disturbed, they no longer point in the same direction and may even cancel other magnetic parts out, weakening and eventualy destroying the magnetism.
Well its all about arrangement of electrons inside the metal. This arrangement gives rise to a force field(not a shield used by the invisible woman in the fantastic four) which has the property of attracting small pieces of iron fillings. Or it may produce electricity when it is displaced around a conductor. How the field arises is the same as how electric force arises.
Yes, plutonium is magnetic. It has an unpaired electron in its outer electron shell, which gives it magnetic properties.
Alexandrite is not magnetic. It is a variety of chrysoberyl and is primarily composed of aluminum oxide with traces of chromium, which gives it its unique color-changing properties. While some minerals may exhibit weak magnetic properties, alexandrite does not possess any significant magnetism.
There are many ways how magnetism is cause. The main reason is due to the magnetic field of a magnet such as a bar magnet which constantly keeps creating its own magnetic field. And an electromagnet which only creates its magnetic field when it is switched on.